java.lang.String type
boolean skip
java.lang.String norm
java.lang.String pnor
boolean ecco
Composition[] mixs
jargon.Autop.SimpleAutop[] simpleSS
java.lang.String type
int grmin
int grmax
int passes
int iterations
float eps
boolean GoldsteinCohen
boolean sph
boolean traCor
java.lang.String solution
int maxcal
java.lang.String comment
int orig
jargon.Compo.Parameter[] para
jargon.Compo.Parameter[] loca
java.util.Hashtable<K,V> parkey
jargon.Compo.Set set
java.lang.String name
java.lang.String type
float temperature
float massDensity
java.lang.String method
boolean norm
Composition alias
Isotope isotope
Composition.CompoInner[] isoCompo
Isotope isotope
Composition composition
float concentration
java.lang.String save
boolean ups
int[] cond
java.lang.String merge
int[] regi
int[] mix
java.lang.String micr1
Isotope[] micr2
java.lang.String[] options
Tracking sph
jargon.Evo.Save save
jargon.Evo.Depl depl
jargon.Evo.Set set
float eps1
float eps2
float expm
float h1
java.lang.String solution
boolean extr
boolean glob
boolean satureInit
boolean dirac
int nanis
java.lang.String bc
float cut
java.lang.String trak
int nangl
float dens
float corn
int symm
boolean medi
java.lang.String type
java.lang.String[] leak
java.lang.String hete
float buckling
float keff
int outerMax
float outerEps
int thermalMax
float thermalEps
int[] livolant
int adi
Trivac-specific variable.
boolean adjoint
Trivac-specific variable.
int[] ndim
java.lang.String type
Composition[] compoArray
java.lang.String[][] bc
bc[i][0] is a keyword identification of side i. This variable is chosen among the following values:
bc[i][1] is a keyword identification of the boundary condition or symmetry condition on side i. This variable is chosen among the following values:
java.lang.String[] hbc
hbc[0] is a keyword identification of the symmetry condition of the hexagonal domain. This variable is chosen among the following values:
hbc[1] is a keyword identification of the boundary condition surrounding the hexagonal domain. This variable is chosen among the following values:
float[] albedo
float[] meshx
float[] meshy
float[] meshz
float[] radius
int[] splitx
int[] splity
int[] splitz
int[] splitr
float hside
float[] offcenter
Composition[] media
int[] mix
Gigogne[] subgeo
int[] merge
java.lang.String[] turn
For hexagonal geometries, the permitted orientations are shown in the following figure:
For 3-D cells, the same letters can be used to describe the rotation in the X-Y plane. However, an additional - sign can be glued to the 2-D rotation identifier to indicate reflection of the cell along the Z-axis (A to L).
int sect
jargon.Gigogne.Cluster cluster
Gigogne.Bihet bihet
java.lang.String name
java.lang.String symbol
java.lang.String libName
java.lang.String lib
java.lang.String fil
java.lang.String shib
float dilution
int inrs
boolean corr
boolean noev
jargon.Isotope.Irset irset
javax.swing.JMenuBar menuBar
javax.swing.JFileChooser fc1
javax.swing.JFileChooser fc2
javax.swing.JMenuItem setItem
javax.swing.JMenuItem viewItem
javax.swing.JMenuItem startItem
javax.swing.JLabel status
java.io.File scriptFile
java.io.File schemeFile
javax.swing.JMenu serversMenu
javax.swing.JMenu setMenu
javax.swing.JMenu viewMenu
javax.swing.JComboBox<E> calcSchemeBox
ComputationalScheme calcScheme
ServerFrame servers
java.lang.String msg
public void readExternal(java.io.ObjectInput in) throws java.io.IOException, java.lang.ClassNotFoundException
try{ FileInputStream fi = new FileInputStream("serialized_object"); ObjectInputStream si = new ObjectInputStream(fi); my_lcm = (Jlcm)si.readObject(); } catch (Exception ex) { System.out.println(ex); System.exit(1); }
java.io.IOException
java.lang.ClassNotFoundException
public void writeExternal(java.io.ObjectOutput out) throws java.io.IOException
try{ FileOutputStream fo = new FileOutputStream("serialized_object"); ObjectOutputStream so = new ObjectOutputStream(fo); so.writeObject(my_lcm); so.flush(); } catch (Exception ex) { System.out.println(ex); System.exit(1); }
java.io.IOException
Composition[] mixs
jargon.Macrolib.MixtureXS[] xs
int ngro
int nifi
int nanis
java.lang.String ctra
boolean norm
float[] energy
java.lang.String moc
int innerMax
float innerEps
boolean aca
boolean scr
int krylov
boolean diffusion
float hdd
java.lang.String type
java.lang.String ctra
int nmix
java.lang.String chain
java.lang.String[] options
Composition[] mixs
java.lang.String operator
java.lang.String name
int edit
Jlcm lcmObj
Jlcm fileObj
Jlcm epsObj
java.lang.Thread thread
Operator operatorOut
javax.swing.JTextField ipField
javax.swing.JTextField userField
javax.swing.JTextField pwField
javax.swing.JLabel status
javax.swing.JTable table
ThreadPool pool
jargon.ServerFrame.ThreadRSH[] myThreadRSH
Gigogne myGeometry
Macrolib myMacrolib
int myEdit
java.lang.String myType
java.lang.String myCylinder
java.lang.String myOption
java.lang.String[] myLeakType
java.lang.String trivacType
int[] order
int maxr
java.lang.String solutionType
ThreadPool myThreadPool
int myEdit
Gigogne myGeom
float myVolume
float myNormalizationFactor
Microlib myMicrolib
float[] myBurnupList
float[] myAutopBurnupList
float[] myTempWaterList
float[] myTempFuelList
Isotope[] myIsotopesEdit
Compo myCompo
java.lang.String solutionType
int maxj
int maxz
java.lang.String type
java.lang.String cylinder
int qua1
int[] qua2
qua2[0] is the number of basis points for the angular integration of the blocks in a two-dimensional geometry appearing during assembly calculations. If a Gauss-Legendre or Gauss-Jacobi formula is used the values allowed for qua2[0] are: 1 to 20, 24, 28, 32 or 64. The default value is qua2[0] = 6 and represents the number of angles in (0, pi/4) for Cartesian geometries and (0, pi/6) for hexagonal geometries.
qua2[1] is the number of basis points for the spatial integration of the blocks in a two-dimensional geometry appearing during assembly calculations. The default value is qua2[1] = 3.
int quab
java.lang.String weights
boolean lign
boolean rect
boolean skip
java.lang.String delta
java.lang.String[] options
java.lang.String trivacType
int[] order
int isplh
int iseg
int impv